Principal Investigator
Meizhen Zheng,
Ph.D.
Assistant Professor (2019-)
School of Life Sciences
Southern University of Science and Technology
Education and Training
- Ph.D., Sun Yat-Sen University Cancer Center
- Postdoctoral Training, Genome Institute of Singapore (GIS)
- Postdoctoral Training, The Jackson Laboratory for Genomic Medicine
(JGM)
Email: zhengmz@sustech.edu.cn
ORCID: https://orcid.org/0000-0001-5569-1812
Zheng Lab primary research interest focuses on developing three-dimensional (3D) genome technologies, with the long-term goal of establishing single-cell, single-molecule multi-omics approaches. My team harnesses these innovative methodologies to unravel the spatial organization of nuclear chromatin and gene expression dynamics, both in normal physiology and diseases. My lab integrates the development of 3D genome mapping (wet-lab) techniques and computational software for data analysis and visualization (dry-lab), providing a comprehensive toolbox for chromatin research.
Zheng Lab’s core achievements from 2020 to 2025 include: (1) developing innovative methods for mapping RNA-associated chromatin DNA-DNA interactions (RDD), which have revealed new mechanisms by which non-coding RNAs regulate chromatin architecture and gene expression;(2) establishing single-cell multi-omics technologies (scAIR) that enable simultaneous profiling of chromatin accessibility, chromatin interactions, and transcriptomes within individual cells, offering novel insights into gene regulation at the single-cell level; and (3) creating efficient computational and visualization tools (ScSmOP, MCIBox, MCI-frcnn) for multi-omics and chromatin interaction data analysis, including the integration of artificial intelligence for automated chromatin structure identification. Collectively, these efforts have provided new tools and perspectives for investigating nuclear organization and gene regulation in both health and disease.
We present the comprehensive 3D epigenomic atlas of Epstein-Barr Virus (EBV) in human lymphoblastoid cells. Using RDD, ChIA-PET, and super-resolution imaging, we show that EBV hijacks host architectural proteins (CTCF, RNAPII) and its own ncRNAs to create a dynamic nuclear architecture. Our systematic mapping of EBV-EBV, EBV-host, and host-host interactions reveals how the virus forms unique chromatin domains and regulatory hotspots that impact host gene expression, particularly immune and cell cycle regulators.
To address the heterogeneity of chromatin and transcriptional regulation at the single-cell level, our group established the scAIR (single-cell ATAC-seq + Interaction + RNA-seq) multi-omics technology (Science Advances 2024). This platform enables the simultaneous measurement of chromatin accessibility, long-range interactions, and RNA expression states from the same nucleus, thus capturing the stepwise targeting, spreading, and gene activation by roX2 across individual embryonic cells.
To address the growing complexity and volume of single-cell and multi-omics chromatin data, my team developed a comprehensive suite of computational pipelines and visualization platforms:
Chen, Rui; Shi, Xinyao; Yao, Xiangrui; Gao, Tong; Huang, Guangyu; Ning, Duo; Cao, Zemin; Xu, Youxin; Liang, Weizheng; Tian, Simon Zhongyuan; Zhu, Qionghua; Fang, Liang; Zheng, Meizhen; Hu, Yuhui; Cui, Huanhuan*; Chen, Wei*. Specific multivalent molecules boost CRISPR-mediated transcriptional activation. Nature Communications, 2024, 15(1): 7222. Impact factor: 16.6
Li, Zhuowen#; Long, Yanping#; Yu, Yiming; Zhang, Fei; Zhang, Hong; Liu, Zhijian; Jia, Jinbu; Mo, Weipeng; Tian, Simon Zhongyuan; Zheng, Meizhen; Zhai, Jixian*. Pore-C simultaneously captures genome-wide multi-way chromatin interaction and associated DNA methylation status in Arabidopsis. Plant Biotechnology Journal, 2022, 20(6): 1009. Impact factor: 8.154
Chen, Tao#; Lin, Yu-Xin#; Zha, Yan#; Sun, Ying; Tian, Jinxiu; Yang, Zhiying; Lin, Shan-Wen; Yu, Fuxun; Chen, Zi-Sheng; Kuang, Bo-Hua; Lei, Jin-Ju; Nie, Ying-Jie; Xu, Yonghao; Tian, Dong-Bo; Li, Ying-Zi; Yang, Bin; Xu, Qiang; Yang, Li; Zhong, Nanshan; Zheng, Meizhen; Li, Yimin; Zhao, Jincun; Zhang, Xiang-Yan; Feng, Lin*. A low-producing haplotype of interleukin-6 disrupting CTCF binding is protective against severe COVID-19. MBio, 2021, 12(5). Impact factor: 6.4
Wang, Ping#; Tang, Zhonghui#; Lee, Byoungkoo; Zhu, Jacqueline Jufen; Cai, Liuyang; Szalaj, Przemyslaw; Tian, Simon Zhongyuan; Zheng, Meizhen; Plewczynski, Dariusz; Ruan, Xiaoan; Liu, Edison T; Wei, Chia-Lin; Ruan, Yijun*. Chromatin topology reorganization and transcription repression by PML-RAR¦Á in acute promyeloid leukemia. Genome Biology, 2020, 21: Jan-21. Impact factor: 14.3
Kim, Minji; Zheng, Meizhen; Tian, Simon Zhongyuan; Lee, Byoungkoo; Chuang, Jeffrey H; Ruan, Yijun*. MIA-Sig: multiplex chromatin interaction analysis by signal processing and statistical algorithms. Genome Biology, 2019, 20: Jan-13. Impact factor: 14.3
Li, Xingwang#; Luo, Oscar Junhong#; Wang, Ping; Zheng, Meizhen; Wang, Danjuan; Piecuch, Emaly; Zhu, Jacqueline Jufen; Tian, Simon Zhongyuan; Tang, Zhonghui; Li, Guoliang; Ruan, Yijun*. Long-read ChIA-PET for base-pair-resolution mapping of haplotype-specific chromatin interactions. Nature Protocols, 2017, 12(5): 899-915. Impact factor: 14.3
Dekker, Job; Belmont, Andrew S; Guttman, Mitchell; Leshyk, Victor O; Lis, John T; Lomvardas, Stavros; Mirny, Leonid A; O’Shea, Clodagh C; Park, Peter J; Ren, Bing; Politz, Joan C Ritland; Shendure, Jay; Zhong, Sheng; 4D Nucleome Network. The 4D nucleome project. Nature, 2017, 549(7671): 219-226. Impact factor: 69.504; Zheng, Meizhen is a member of the 4D Nucleome Network
Tang, Zhonghui#; Luo, Oscar Junhong#; Li, Xingwang#; Zheng, Meizhen; Zhu, Jacqueline Jufen; Szalaj, Przemyslaw; Trzaskoma, Pawel; Magalska, Adriana; Wlodarczyk, Jakub; Ruszczycki, Blazej; Michalski, Paul; Piecuch, Emaly; Wang, Ping; Wang, Danjuan; Tian, Simon Zhongyuan; Penrad-Mobayed, May; Sachs, Laurent M; Ruan, Xiaoan; Wei, Chia-Lin; Liu, Edison T; Wilczynski, Grzegorz M; Plewczynski, Dariusz; Li, Guoliang; Ruan, Yijun*. CTCF-mediated human 3D genome architecture reveals chromatin topology for transcription. Cell, 2015, 163(7): 1611-1627. Impact factor: 66.850
Li, Guoliang#; Ruan, Xiaoan#; Auerbach, Raymond K#; Sandhu, Kuljeet Singh#; Zheng, Meizhen; Wang, Ping; Poh, Huay Mei; Goh, Yufen; Lim, Joanne; Zhang, Jingyao; Sim, Hui Shan; Peh, Su Qin; Mulawadi, Fabianus Hendriyan; Ong, Chin Thing; Orlov, Yuriy L; Hong, Shuzhen; Zhang, Zhizhuo; Landt, Steve; Raha, Debasish; Euskirchen, Ghia; Wei, Chia-Lin; Ge, Weihong; Wang, Huaien; Davis, Carrie; Fisher-Aylor, Katherine I; Mortazavi, Ali; Gerstein, Mark; Gingeras, Thomas; Wold, Barbara; Sun, Yi; Fullwood, Melissa J; Cheung, Edwin; Liu, Edison; Sung, Wing-Kin; Snyder, Michael*; Ruan, Yijun*. Extensive promoter-centered chromatin interactions provide a topological basis for transcription regulation. Cell, 2012, 148(1): 84-98. Impact factor: 66.850
ENCODE Project Consortium. An integrated encyclopedia of DNA elements in the human genome. Nature, 2012, 489(7414): 57. Impact factor: 69.504; Zheng, Meizhen is a member of the ENCODE Project Consortium
Zeng, Huilan*; Han, Xinai; Gu, Chen; Jiang, Jianwei; Zheng, Meizhen; Yan, Yuxia; Zeng, Yaoying; Di, Jingfang. Delivery and immunologic efficacy of CpG ODN targeting B lymphocytes of umbilical cord blood by CD40 ligand-receptor-mediated carrier. Chinese Journal of Tissue Engineering Research, 2009: 974-978. Impact factor (Chinese): 1.0~1.5
Zeng, Huilan*; Zhu, Kanger; Jiang, Jianwei; Gu, Huaimin; Cai, Jiye; Cheng, Longqiu; Yang, Zhigang; Zheng, Meizhen. The prevention of acute graft versus host disease by Rhodamine 123-mediated photodynamic therapy. Chinese Journal of Pathophysiology, 2000. Impact factor (Chinese): 1.0~1.5
Jiang, Jianwei*; Zheng, Meizhen; Zeng, Huilan; Zeng, Yaoying; Di, Jingfang; Yan, Yuxia; Wu, Meiyu. Preparation of CD40L-PLL-CpG ODN conjugated complex and its targeting B lymphocytes. Chinese Journal of Pathophysiology, 2005. Impact factor (Chinese): 1.0~1.5